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Study on surface roughness model and surface forming mechanism of ceramics in quick point grinding

机译:快速点磨陶瓷表面粗糙度模型及表面形成机理研究

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The quick-point grinding experiment of fluorophlogopite was conducted by using a MK9025A profile grinder which considered the simple single factor, such as the grinding wheel and table feed speed, grinding depth, inclining angle and deflection angle. The experimental results indicated that the surface roughness was mainly influenced on inclining angle and deflecting angle. Moreover, the modified model of the quick-point grinding process was proposed in the paper, which based on Malkin kinematics model, Snoeys empirical model and grinding thickness empirical model. The inclining angle and deflecting angle was introduced in the modified model. Comparison of the predicted results of these models and experimental ones indicated that the modified model was in well agreement with the experimental data. Further, standard deviation of these models and experiment was studied in the paper, it is found that the modified model was the more ideal. In order to study the effect of various technology factors on the sensitivity of surface roughness, "Relative extremum error" concept was first proposed in the paper. It was found that simple single factor in the modified model were relatively sensitive to surface roughness than other models.
机译:使用MK9025A型材磨床进行氟金云母的快速点磨实验,该磨床考虑了简单的单个因素,例如砂轮和工作台进给速度,磨削深度,倾斜角和偏斜角。实验结果表明,表面粗糙度主要受倾斜角和偏转角的影响。在此基础上,提出了基于Malkin运动学模型,Snoeys经验模型和磨削厚度经验模型的快速点磨工艺的修正模型。在改进模型中引入了倾斜角和偏转角。将这些模型与实验模型的预测结果进行比较表明,改进后的模型与实验数据吻合良好。此外,本文对这些模型和实验的标准偏差进行了研究,发现修改后的模型更为理想。为了研究各种技术因素对表面粗糙度敏感性的影响,本文首先提出“相对极值误差”的概念。结果发现,与其他模型相比,修改后模型中的简单单因素对表面粗糙度相对敏感。

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